Layout of transmission vias for memory device

ABSTRACT

Apparatuses and methods for supplying power to a plurality of dies are described. An example apparatus includes: a substrate; first, second and third memory cell arrays arranged in line in a first direction in the substrate; a first set of through electrodes arranged between the first and second memory cell arrays, each of the first set of through electrodes penetrating through the substrate, the first set of through electrodes including first and second through electrodes; and a second set of through electrodes arranged between the second and third memory cell arrays, each of the second set of through electrodes penetrating through the substrate, the second set of through electrodes including third and fourth through electrodes.

BACKGROUND

High data reliability, high speed of memory access, lower power consumption and reduced chip size are features that are demanded from semiconductor memory. In recent years, three-dimensional (3D) memory devices by stacking dies vertically stacked and interconnecting the dies using through-silicon vias (TSVs) have been introduced. Benefits of the 3D memory devices include a plurality of core chips stacked with a large number of vertical vias between the plurality of core chips and an interface chip and the memory controller, which allow wide bandwidth buses with high transfer rates between functional blocks in the plurality of core chips and the interface chip, and a considerably smaller footprint. Thus, the 3D memory devices contribute to large memory capacity, higher memory access speed and chip size reduction. The 3D memory devices include Hybrid Memory Cube (HMC) and High Bandwidth Memory (HBM).

The large number of vertical vias may transfer a clock signal, memory cell data and command sequences for controlling the core chips simultaneously in a manner that the plurality of core chips can be operated independently and simultaneously at high transfer rates. Here, a plurality of input/output channels on the core chips are not necessarily synchronous to each other. To accommodate such operation, the 3D memory device may include a large number of circuits that may operate simultaneously, which causes simultaneous power consumption throughout the device. In particular, the 3D memory device may allow a plurality of memory core chips to operate similar operations throughout circuits on each memory core chip simultaneously at high transfer rates while allowing the interface chip in the 3D memory device to transfer data high rates simultaneously. Simultaneous power consumption throughout the 3D memory device may cause a considerable voltage drop at portions of the large number of circuits having high wiring resistance with respect to a power supply source. This voltage drop may cause unstable operations at the portions of the large number of circuits.

BRIEF DESCRIPTION OF THE DRAWINGS

FIG. 1 is a schematic diagram of a semiconductor device including an interface chip and a plurality of core chips in accordance with an embodiment of the present disclosure.

FIG. 2A is a simplified layout diagram of a chip including through electrodes in a semiconductor device, in accordance with an embodiment of the present disclosure.

FIG. 2B is a schematic diagram of a through electrode in a core chip of the semiconductor device, in accordance with an embodiment of the present disclosure.

FIG. 2C is a schematic diagram of the semiconductor device including an interface chip and a plurality of core chips in FIG. 2A.

FIG. 2D is a schematic view of the power supply through electrodes and the power supply wirings in FIGS. 2A and 2B.

FIG. 3A is a simplified layout diagram of a chip including through electrodes in a semiconductor device, in accordance with an embodiment of the present disclosure.

FIG. 3B is a schematic diagram of the semiconductor device including an interface chip and a plurality of core chips in FIG. 3A.

FIG. 3C is a schematic view of the power supply through electrodes and the power supply wirings in FIGS. 3A and 3B.

FIG. 4A is a schematic diagram of the semiconductor device including an interface chip and a plurality of core chips, in accordance with an embodiment of the present disclosure.

FIG. 4B is a schematic view of the power supply through electrodes and the power supply wirings in FIG. 4A.

FIG. 5A is a simplified layout diagram of a chip including through electrodes in a semiconductor device, in accordance with an embodiment of the present disclosure.

FIG. 5B is a schematic diagram of the semiconductor device including an interface chip and a plurality of core chips in FIG. 5A.

FIG. 5C is a schematic view of the power supply through electrodes and the power supply wirings in FIGS. 5A and 5B.

FIG. 6A is a simplified layout diagram of memory cell arrays of a chip in a semiconductor device, in accordance with an embodiment of the present disclosure.

FIG. 6B is a layout diagram of the portion of the memory cell array of the chip of FIG. 6A.

FIG. 7 is a schematic diagram of a semiconductor system including a semiconductor device that includes an interface chip and a plurality of core chips in accordance with an embodiment of the present disclosure.

DETAILED DESCRIPTION OF PREFERRED EMBODIMENTS

Various embodiments of the present invention will be explained below in detail with reference to the accompanying drawings. The following detailed description refers to the accompanying drawings that show, by way of illustration, specific aspects and embodiments in which the present invention may be practiced. These embodiments are described in sufficient detail to enable those skilled in the art to practice the present invention. Other embodiments may be utilized, and structure, logical and electrical changes may be made without departing from the scope of the present invention. The various embodiments disclosed herein are not necessary mutually exclusive, as some disclosed embodiments can be combined with one or more other disclosed embodiments to form new embodiments.

FIG. 1 is a schematic diagram of a semiconductor device including an interface chip and a plurality of core chips in accordance with an embodiment of the present disclosure. As shown in FIG. 1, a semiconductor device 1 may include an interface (I/F) chip 3 and a plurality of core chips 4 stacked on the I/F chip 3. The I/F chip 3 may be stacked on a substrate 2. The semiconductor device 1 may include one or more external terminals 5 (e.g., one or more pads) which may receive external signals and provide the external signals to internal signal wirings 26 of the substrate 2.

For example, each of the I/F chip 3 and the plurality of core chips 4 may extend on a plane defined by a first direction 100 and a second direction 110 that is perpendicular to the first direction 100. The I/F chip 3 and the plurality of core chips 4 may be stacked in a third direction 120 that is perpendicular to the first direction 100 and the second direction 110. The I/F chip 3 may include a substrate layer 31 and a wiring layer 32. The I/F chip 3 includes a plurality of through wirings 36. For example, each of the plurality of through wirings 36 includes a through electrode (TSV) 35 in the substrate layer 31. For example, each of the plurality of through wirings 36 includes a substrate terminal 33 on a side of the substrate 2 which couples the substrate 2 to the TSV 35. The I/F chip 3 may include an external input/output circuit (not shown) that is coupled to a plurality of substrate terminals 33. The external input/output circuit transmits signals from/to the outside of the semiconductor device 1 through the substrate 2. For example, each of the plurality of through wirings 36 includes an interface (IF) terminal 34 (e.g., surface bump) on a side of the plurality of core chips 4 which couples the TSV 35 to a corresponding interface (IF) terminal 43 of one of the plurality of core chips 4 facing the I/F chip 3. The I/F chip 3 may also include an internal signal input/output circuit (not shown) that is coupled to a plurality of IF terminals 34. The internal signal input/output circuit transmits data to/from the core chips 4.

Each of the plurality of core chips 4 may include a substrate layer 41 and a wiring layer 42. Each of the plurality of core chips 4 includes a large number of memory cells (not shown, e.g., dynamic random access memory). Each of the plurality of core chips 4 may include memory cell peripheral circuits (not shown, e.g., sense amplifiers and address decoders), timing control circuits for adjusting operation timings of the memory cell peripheral circuits, input/output circuits relative to the I/F chip 3, test circuits for defect detection in a wafer test for core chips. Each of the plurality of core chips 4 may include a plurality of through wirings 46. Each of the plurality of through wirings 46 may include one or more interface (IF) terminals 43 and a plurality of through electrodes 45.

A power supply (e.g., a positive supply voltage V_(DD), a negative supply voltage V_(SS)) for operations of the plurality of core chips 4 is supplied to the I/F chip 3 from an external terminal 5 coupled to a power supply source (not shown), and further supplied to the plurality of core chips 4 through power supply through electrodes 35 and 45. FIG. 2A is a simplified layout diagram of a chip 20 including through electrodes 25 in the semiconductor device 1, in accordance with an embodiment of the present disclosure. The chip 20 may be the I/F chip 3 or the core chip 4. When the chip 20 is the core chip 4, memory cell arrays 23 represented by squares of dotted lines may be disposed on the chip 20. The through electrodes 25 may be power supply through electrodes 35 or 45 on the I/F chip 3 or the core chip 4, respectively. The chip 20 may include the through electrodes 25 disposed in an area 21 at the center of the chip 20. In this example, the area 21 may be between the memory cell arrays 23 and aligned to the memory cell arrays 23 along a first direction 200. The area 21 may extend in a second direction 210 perpendicular to the first direction 200. Power supply wirings 22 are coupled to the through electrodes 25 on the chip 20. The power supply wirings 22 may be represented by solid lines in horizontal and vertical directions on the chip 20.

FIG. 2B is a schematic diagram of a through electrode in a core chip of the semiconductor device, in accordance with an embodiment of the present disclosure. In particular, FIG. 2B shows a cross-sectional view of the through wiring 46 including the through electrode (TSV) 45 through a substrate layer 41, an interlayer insulation film 201, which is provided on a surface (e.g., a back surface) of the substrate layer 41, and a passivation film 202, which is provided on a surface (e.g., a top surface) of the substrate layer 41, and surface bumps 47 and 48 that are provided at the same location as the through electrode 45 in planar view. For example, the through electrode 45 may be made of conductive material, such as copper or the like. The back surface of the substrate 41 will be a multi-level wiring structure 42 including wiring layers L1 to L4. Around the through electrode 45, insulation wall 451 is provided to insulate the through electrode 45 from a transistor region. The insulation wall 451 can be provided as an insulation ring or an insulation film such as silicon oxide film around the through electrode 45.

An end portion of the through electrode 45 may be covered with the surface bump 47 that may be in contact with the other surface bump 48 of another core chip, respectively. For example, the surface bump 47 covers the surfaces of the through electrode 45. The through wiring 46 may also include interconnection pads M1 to M4 provided at the wiring layers L1 to L4 respectively, and a plurality of through-hole conductors TH1 to TH3, which couple the interconnection pads M1 to M4. The surface bump 48 is connected to an end portion of the through electrode 45 via the interconnection pads M1 to M4 and the plurality of through-hole conductors TH1 to TH3. For example, the surface bump 48 may include a pillar portion 49 made of conductive material which passes through a passivation film 203. The connection to internal circuits not shown in FIG. 2B may be provided by interconnection lines (not shown), which couple the interconnection pads M1 to M3 to the internal circuits provided in the wiring layers L1 to L3. Accordingly, input signals (command signals, address signals, and other signals) that are supplied from another chip (e.g., the interface chip IF) to the core chips via the through electrodes 45 that are provided to the core chips. Output signals (e.g., data signals) from the core chips may be provided via the through electrodes 45 to the interface chip IF.

FIG. 2C is a schematic diagram of the semiconductor device including an interface chip and a plurality of core chips in FIG. 2A. FIG. 2C is a cross-sectional view of a portion of the semiconductor device indicated by X-X′ of FIG. 2A. A plurality of chips 20 (e.g., the I/F chip 3 and the plurality of core chips 4) may be stacked in a third direction 220 that is perpendicular to the first direction 200 and the second direction 210 in FIG. 2A. The cross-sectional view includes cross sections of the power supply through electrodes 25 disposed in the area 21 of FIG. 2A. The power supply through electrodes 25 may supply power supply voltage from the external terminals 5 through the substrate wirings 26 of the substrate 2 to the plurality of chips 20. The plurality of power supply through electrodes 25 may be coupled by a plurality of terminals 27 in a series in a direction perpendicular to planes of the plurality of chips 20. For example, the plurality of terminals 27 may be the IF terminals 34 and 43 coupling the plurality of power supply through electrodes 25. The power supply through electrodes 25 may supply the power supply voltage to the plurality of chips 20 through the power supply wirings 22.

FIG. 2D is a schematic view of the power supply through electrodes 25 and the power supply wirings 22 in FIGS. 2A and 2C. In FIG. 2D, each of the power supply through electrodes 25 and the power supply wirings 22 may be modeled as a resistor. Each of the resistor groups 241 and 242 may include the plurality of power supply through electrodes 25 and a plurality of terminals 27 in the area 21. The plurality of power supply through electrodes 25 are coupled in series along the third direction 220. The power supply through electrodes 25 is made of conducting material (e.g., copper) and the resistance of the power supply through electrodes 25 is substantially low (e.g., approximately zero). The resistance of the power supply wirings 22 may also be extremely low (e.g., approximately 0.05 ohm). There may be low resistance at a connection point of the terminals 27 with the power supply wirings 22 on the chip 20. The semiconductor device 1 may include a large number of the through electrodes 25, where the resistance of each of the resistor groups 241 and 242 may be substantially low (e.g., approximately zero) due to high conductivity of the conductive material. Each of the power supply wirings 22 may be provided to have a width that minimizes the resistance inside the chip 20, while supplying a sufficiently level of power supply voltage to circuits.

FIG. 3A is a simplified layout diagram of a chip including through electrodes in a semiconductor device, in accordance with an embodiment of the present disclosure. Description of components corresponding to components included in FIG. 2A will not be repeated and changes from FIG. 2A including positional relationships between the components will be described. For example, the chip 20 may include the through electrodes 25 a to 25 c disposed in areas 21 a to 21 c on the chip 20. The through electrodes 25 a to 25 c may be for power supply and coupled to the power supply wirings 22. In this example, the chip 20 may include memory cell arrays 23 a to 23 d represented by squares of dotted lines, which are aligned along a first direction 300. The area 21 a may be disposed between the memory cell arrays 23 b and 23 c, adjacent to the memory cell array 23 b and aligned to the memory cell array 23 b along the first direction 300. The area 21 a may be adjacent to the memory cell array 23 c and aligned to the memory cell array 23 c along a third direction 300′ which is substantially opposite to the first direction 300. The area 21 b may be disposed between the memory cell arrays 23 a and 23 b, adjacent to the memory cell array 23 a and aligned to the memory cell array 23 a along the first direction 300. The area 21 b may be adjacent to the memory cell array 23 b and aligned to the memory cell array 23 b along the third direction 300′. The area 21 c may be disposed between the memory cell arrays 23 c and 23 d, adjacent to the memory cell array 23 c and aligned to the memory cell array 23 c along the first direction 300. The area 21 c may be adjacent to the memory cell array 23 d and aligned to the memory cell array 23 d along the third direction 300′. The areas 21 a to 21 c may extend in a second direction 310 perpendicular to the first direction 300. It may be possible to have substantially the same resistance between circuitry portions in the area 21 b and 21 c. For example, the areas 21 b and 21 c may be symmetrically spaced with respect to the area 21 a. A distance between the areas 21 a and 21 b and a distance between the areas 21 a and 21 c may be substantially the same. A number of the plurality of through electrodes 25 b and a number of the plurality of through electrodes 25 c may be substantially the same.

FIG. 3B is a schematic diagram of the semiconductor device including an interface chip and a plurality of core chips in FIG. 3A. FIG. 3B is a cross-sectional view of a portion of the semiconductor device indicated by X-X′ of FIG. 3A. The cross-sectional view includes cross sections of the power supply through electrodes 25 a to 25 c disposed in the area 21 a to 21 c of FIG. 3A. The power supply through electrodes 25 a to 25 c may supply power supply voltage from the external terminals 5 through the substrate wirings 26 of the substrate 2 to the plurality of chips 20 (e.g., the interface chip 3 and the plurality of core chips 4, where a number of the plurality of core chips 4 is four). The plurality of power supply through electrodes 25 a to 25 c may be coupled by a plurality of terminals 27 a to 27 c in a series in a direction perpendicular to planes of the plurality of chips 20. For example, the plurality of terminals 27 a to 27 c may be coupling the plurality of power supply through electrodes 25 a to 25 c, respectively. The power supply through electrodes 25 a to 25 c in the areas 21 a to 21 c may supply the power supply voltage to the plurality of chips 20 through the power supply wirings 22.

FIG. 3C is a schematic view of the power supply through electrodes and the power supply wirings in FIGS. 3A and 3B. In FIG. 3C, each of the power supply through electrodes 25 a to 25 c and the power supply wirings 22 may be modeled as a resistor. Each of the resistor groups 24 a to 24 c may include the plurality of power supply through electrodes 25 a to 25 c and a plurality of terminals 27 in the area 21 a to 21 c, respectively. The plurality of power supply through electrodes 25 a are coupled by the plurality of terminals 27 in series along a fourth direction 320 that is perpendicular to the first direction 300 and the second direction 310. Similarly, the plurality of power supply through electrodes 25 b are coupled in series along the fourth direction 320 by the plurality of terminals 27, and the plurality of power supply through electrodes 25 c are coupled in series along the fourth direction 320 by the plurality of terminals 27. Because the areas 21 a to 21 c for the through electrodes 25 a to 25 c for power supply are disposed between the memory cell arrays 23 a to 23 d, a circuit (not shown) may be disposed between the through electrodes 25 a and 25 b or between the through electrodes 25 a and 25 c. For example, the circuit may be a step-down power-supply circuit or the like. The circuit between the memory cell arrays may supply power efficiently to the memory cell array in the memory cell arrays 23 a to 23 d.

As described above, the power supply through electrodes 25 a to 25 c may supply the power supply voltage to the plurality of chips 20 through the power supply wirings 22 disposed in a center area of each chip (e.g., the area 21 a), but also through the power supply wirings 22 located in the areas 21 b and 21 c of FIGS. 3B and 3C. In this case, a resistance between the external terminals 5 and a portion at an electrically farther end (e.g., a circuitry portion at the chip end) becomes smaller when the wiring resistance on an identical chip is substantially the same, because additional electrical paths for power supply are provided by the power supply wirings located in the areas 21 b and 21 c. Thus, the additional electrical paths may reduce voltage drops due to power consumption in circuits on the plurality of chips 20 and therefore stabilize operations in the circuits.

FIG. 4A is a schematic diagram of the semiconductor device including the interface chip and the plurality of core chips, in accordance with an embodiment of the present disclosure. A simplified layout view of each die of the semiconductor device may be similar to the simplified layout view of each die of the semiconductor device in FIGS. 3A to 3 c and description of components corresponding to components included in FIGS. 2A and 3 a to 3 c will not be repeated and changes from FIGS. 2A and 3A to 3C including positional relationships between the components will be described. FIG. 4A is a cross-sectional view of a portion of the semiconductor device. The cross-sectional view includes cross sections of the power supply through electrodes 25 a and 25 c disposed in the area 21 a and 21 c of FIG. 3A. The power supply through electrodes 25 a and 25 c may supply power supply voltage from the external terminals 5 through the substrate wirings 26 of the substrate 2 to the plurality of chips 20 (e.g., the interface chip 3 and the plurality of core chips 4, where a number of the plurality of core chips 4 is eight).

FIG. 4B is a schematic view of the power supply through electrodes and the power supply wirings in FIG. 4A. In FIG. 4B, each of the power supply through electrodes 25 a to 25 c and the power supply wirings 22 may be modeled as a resistor. Each of the resistor group 24 a may include the plurality of power supply through electrodes 25 a in the area 21 a, and each of the resistor groups 24 c and 24 c′ may include the plurality of power supply through electrodes 25 c and 25 c′ in the area 21 c, respectively. The plurality of power supply through electrodes 25 a are coupled in series along the fourth direction 320 by the plurality of terminals 27. Similarly, the plurality of power supply through electrodes 25 c in the resistor groups 24 c are coupled in series along the fourth direction 320 and the plurality of power supply through electrodes 25 c′ in the resistor groups 24 c′ are coupled in series along the fourth direction 320. As described above, the power supply through electrodes 25 c and 25 c′ may supply the power supply voltage to the plurality of chips 20 through the through wirings disposed located in the area 21 c of FIGS. 4A and 4B. In this case, a resistance between the external terminals 5 and a portion at an electrically farther end, such as a circuitry portion at the chip end and or a circuitry portion on upper chips becomes smaller when the wiring resistance on an identical chip is substantially the same, because additional electrical paths for power supply may be provided by the power supply wirings located in the area 21 c on additional chips due to an increased number of stacked layers. Thus, the additional electrical paths may reduce voltage drops due to power consumption in circuits on the plurality of chips 20 and therefore stabilize operations in the circuits.

FIG. 5A is a schematic diagram of a layout of through electrodes on a chip in a semiconductor device, in accordance with an embodiment of the present disclosure. Description of components corresponding to components included in FIGS. 2A and 3A will not be repeated and changes from FIGS. 2A and 3A including positional relationships between the components will be described. For example, the chip 20 may further include the through electrodes 25 d and 25 e disposed in areas 21 d and 21 e on the chip 20. The through electrodes 25 d and 25 e may be for power supply and coupled to the power supply wirings 22. The area 21 d may be disposed between an end 28 a and the memory cell array 23 a, adjacent to the memory cell array 23 a and aligned to the memory cell array 23 a along the first direction 300. The area 21 e may be disposed between an end 28 b and the memory cell array 23 d, adjacent to the memory cell array 23 d and aligned to the memory cell array 23 d along the third direction 300′. It may be possible to have substantially the same resistance between circuitry portions in the area 21 d and 21 e. For example, the areas 21 d and 21 e may be symmetric with respect to the area 21 a. A distance between the areas 21 a and 21 d and a distance between the areas 21 a and 21 e may be substantially the same. A number of the plurality of through electrodes 25 d and a number of the plurality of through electrodes 25 e may be substantially the same.

FIG. 5B is a schematic diagram of the semiconductor device including the interface chip and the plurality of core chips in FIG. 5A. FIG. 5B is a cross-sectional view of a portion of the semiconductor device indicated by X-X′ of FIG. 5A. The cross-sectional view includes cross sections of the power supply through electrodes 25 d and 25 e disposed in the area 21 d and 21 e of FIG. 5A. The power supply through electrodes 25 d and 25 e may supply power supply voltage from the external terminals 5 through the substrate wirings 26 of the substrate 2 to the plurality of chips 20 (e.g., the interface chip 3 and the plurality of core chips 4).

FIG. 5C is a schematic view of the power supply through electrodes and the power supply wirings in FIGS. 5A and 5B. In FIG. 5C, each of the power supply through electrodes 25 a to 25 e and the power supply wirings 22 may be modeled as a resistor. Each of the resistor group 24 d may include the plurality of power supply through electrodes 25 d in the area 21 d, and each of the resistor groups 24 e and 24 e′ may include the plurality of power supply through electrodes 25 e and 25 e′ in the area 21 e, respectively. The plurality of power supply through electrodes 25 d are coupled in series along the fourth direction 320 by the plurality of terminals 27. Similarly, the plurality of power supply through electrodes 25 e in the resistor groups 24 e are coupled in series along the fourth direction 320 and the plurality of power supply through electrodes 25 e′ in the resistor groups 24 e′ are coupled in series along the fourth direction 320. As described above, the power supply through electrodes 25 e and 25 e′ may supply the power supply voltage to the plurality of chips 20 through the through wirings disposed located in the area 21 e of FIGS. 5A and 5B. In this case, a resistance between the external terminals 5 and a portion at an electrically farther end, such as a circuitry portion at the ends of the plurality of chips 20 and or a circuitry portion on upper chips becomes smaller because additional electrical paths for power supply may be provided by through electrodes 25 d, 25 e, and 25 e′ in proximity of the ends 28 a and 28 b of the plurality of chips 20 located in the areas 21 d and 21 e. Thus, the additional electrical paths may reduce voltage drops due to power consumption in circuits on the plurality of chips 20 and therefore stabilize operations in the circuits.

FIG. 6A is a simplified layout diagram of memory cell arrays of a chip in a semiconductor device, in accordance with an embodiment of the present disclosure. Description of components corresponding to components included above will not be repeated and wirings are not shown in FIG. 6A. A memory cell array region 60 may include a plurality of banks 62. For example, column decoders 64 and row decoders 65 may be provided for each bank. A plurality of row decoders 65 may be disposed at sides of a main amplifier 63 in one direction of each bank. For example, each of memory cell arrays 23 a to 23 d may include the plurality of banks 62 divided by the row decoders 65 and the column decoders 64. The column decoders 64 may be disposed between the plurality of banks 62 in a direction substantially perpendicular to the one direction. The area 21 a may include the power supply through electrodes 25 a for power supply from the external terminals 5 and other through electrodes for communication via external terminals. The area 21 c may include the power supply through electrodes 25 c for power supply from the external terminals 5. The area 21 a may include peripheral circuit voltage (VPERI) generators 67 that provide a peripheral voltage VPERI. The area 21 c may include array-system circuit voltage (VARY) generators 66 that provide an array-system circuit voltage (VARY) and the VPERI generators 67. For example, the area 21 c may include a portion 68 including the power supply through electrodes 25 c, the VARY generator 66 and one VPERI generator 67.

FIG. 6B is a layout diagram of the portion 68 of the memory cell array of the chip of FIG. 6A. The portion 68 may be disposed between the plurality of banks 62 and may include the power supply through electrodes 25 c, the VARY generator 66 and the VPERI generator 67. The VARY may be provided for sense amplifier circuits whereas the VPERI may be used among many circuits on the chip. For example, the VARY generator 66 and the VPERI generator 67 may provide the VARY and the VPERI that may be decoupled from each other. The VARY and the VPERI may be the same. The VARY and the VPERI may be different from each other. The VARY generator 66 and the VPERI generator 67 may be located adjacent to corresponding power supply through electrodes 25 c supplied with an external power supply voltage V_(DD) (not shown, e.g., 1.2V) and a ground voltage V_(SS) (not shown, e.g., 0V). The VARY generator 66 may generate the VARY (e.g., about 1.0V) based on V_(DD) and V_(SS). The VPERI generator 67 may generate the VPERI (e.g., about 0.9V to 1.0V) based on V_(DD) and V_(SS). Thus, disposing the power supply through electrodes 25 c in proximity to the VARY generators 66 and the VPERI generators 67 will reduce power consumption due to small resistance between the power supply through electrodes 25 c and the VARY generators 66 or the VPERI generators 67 and therefore stabilize operations in circuits on the memory cell array. Similarly, the area 21 b may include the VARY generator 66 and the VPERI generator 67 between a plurality of banks 62. The area 21 b may include the power supply through electrodes 25 b disposed in proximity to the VARY generators 66 and the VPERI generators 67 to achieve the similar effect as the power supply through electrodes 25 c in the area 21 c.

FIG. 7 is a schematic diagram of a semiconductor system including a semiconductor device that includes an interface chip and a plurality of core chips, in accordance with an embodiment of the present disclosure. For example, the semiconductor system 70 may include a semiconductor device 1, which is a three-dimensional (3D) memory device, and a central processing unit (CPU) and memory controller 71, which may be a controller chip, on an interposer 72 on a package substrate 73. The interposer 72 may include one or more power lines 75 which supply power supply voltage from the package substrate 73. The interposer 72 includes a plurality of channels 79 that may interconnect the CPU and memory controller 71 and the semiconductor device 1. For example, the semiconductor device 1 may be an HBM, an HMC, a Wide-IO DRAM, etc. The semiconductor device 1 may include a plurality of chips 20 including an I/F chip 3 and core chips 4 stacked with each other. In this example, each core chip 4 may be a memory chip. Each of the memory chip 20 may include a plurality of memory cells and circuitries accessing the memory cells. For example, the memory cells may be DRAM memory cells. The semiconductor device 1 may include conductive vias TSVs 25 (e.g., through substrate electrodes) which couple the I/F chip 3 and core chips 4 by penetrating the I/F chip 3 and core chips 4. The I/F chip 3 may be coupled to the interposer 72 via interconnects, such as bumps 74. For example, the bumps 74 may be microbumps having bump pitches of less than about or less than one hundred micro meters and exposed on an outside of the I/F chip 3. A portion of the bumps 74 may be coupled to the one or more power lines 75. Another portion of the bumps 74 may be coupled to the plurality of channels 79.

Logic levels of signals used in the embodiments described the above are merely examples. However, in other embodiments, combinations of the logic levels of signals other than those specifically described in the present disclosure may be used without departing from the scope of the present disclosure.

Although this invention has been disclosed in the context of certain preferred embodiments and examples, it will be understood by those skilled in the art that the inventions extend beyond the specifically disclosed embodiments to other alternative embodiments and/or uses of the inventions and obvious modifications and equivalents thereof. In addition, other modifications which are within the scope of this invention will be readily apparent to those of skill in the art based on this disclosure. It is also contemplated that various combination or sub-combination of the specific features and aspects of the embodiments may be made and still fall within the scope of the inventions. It should be understood that various features and aspects of the disclosed embodiments can be combined with or substituted for one another in order to form varying mode of the disclosed invention. Thus, it is intended that the scope of at least some of the present invention herein disclosed should not be limited by the particular disclosed embodiments described above. 

What is claimed is:
 1. An apparatus comprising: a substrate; first, second and third memory cell arrays arranged in a first direction in the substrate; a first set of through electrodes arranged between the first and second memory cell arrays, each of the first set of through electrodes penetrating through the substrate, the first set of through electrodes including first and second through electrodes; a second set of through electrodes arranged between the second and third memory cell arrays, each of the second set of through electrodes penetrating through the substrate, the second set of through electrodes including third and fourth through electrodes; and a first voltage generator arranged between the first memory cell array and the second memory cell array to coupled to the first and second electrodes, the first voltage generator being configured to generate a first voltage between a ground voltage and a power supply voltage.
 2. The apparatus of claim 1, wherein the first and second through electrodes are arranged in line in a second direction substantially perpendicular to the first direction, and the third and fourth through electrodes are arranged in the second direction.
 3. The apparatus of claim 1, wherein the first through electrode is supplied with the ground voltage and the second through electrode is supplied with the power supply voltage.
 4. The apparatus of claim 1, wherein the first set of through electrodes further includes fifth and sixth through electrodes, and wherein the apparatus further comprises a second voltage generator arranged between the first and second memory cell arrays and coupled to the fifth and sixth through electrodes, the second voltage generator being configured to generate a second voltage independently of the first voltage.
 5. The apparatus of claim 4, wherein the third through electrode is supplied with the ground voltage and the fourth through electrode is supplied with the power supply voltage, and wherein the apparatus further comprises a third voltage generator arranged between the second and third memory cell arrays and coupled to the third and fourth through electrodes, the third voltage generator being configured to generate a third voltage equal to the first voltage.
 6. An apparatus comprising: a first chip extending on a first plane defined by a first direction and a second direction that is perpendicular to the first direction, the first chip comprising: a substrate; a first memory cell array and a second memory cell array arranged in the first direction on the substrate; a first area disposed between the first memory cell array and the second memory cell array, the first area aligned to the first memory cell array along the first direction, one or more first through electrodes disposed in the first area; a second area disposed adjacent to the first memory cell array and aligned to the first memory cell array along a third direction opposite to the first direction; and one or more second through electrodes disposed in the second area.
 7. The apparatus of claim 6, further comprising: a third area disposed adjacent to the second memory cell array and aligned to the second memory cell array along the first direction; and one or more third through electrodes disposed in the third area.
 8. The apparatus of claim 7, wherein the second area and the third area are symmetrically spaced with respect to the first area.
 9. The apparatus of claim 7, wherein a first distance between the first area and the second area and a second distance between the first area and the third area are substantially the same.
 10. The apparatus of claim 7, wherein a number of the one or more second through substrates and a number of the one or more third substrates are substantially the same.
 11. The apparatus of claim 6, further comprising: one or more circuits on the substrate; one or more first voltage generators configured to supply a first voltage to the one or more circuits, wherein the one or more first voltage generators are disposed on the first area and the second area.
 12. The apparatus of claim 7, further comprising: one or more circuits on the substrate; one or more first voltage generators configured to supply a first voltage to the one or more circuits, one or more first sense amplifiers coupled to the first memory cell array; one or more second sense amplifiers coupled to the second memory cell array; and one or more second voltage generators configured to supply a second voltage, wherein a first portion of the one or more second voltage generators are disposed on the second area and configured to supply the second voltage to the one or more first sense amplifiers, and wherein a second portion of the one or more second voltage generators are disposed on the third area and configured to supply the second voltage to the one or more second sense amplifiers.
 13. The apparatus of claim 6, further comprising: a second chip having the first chip stacked thereon in a fourth direction perpendicular to the first direction and the second direction, the second chip comprising: a second substrate; a fourth area corresponding to the first area; one or more fourth through electrodes disposed in the fourth area; one or more first terminals configured to couple the one or more fourth through electrodes to the one or more first through electrodes in series along the fourth direction; a fifth area corresponding to the first area; one or more fifth through electrodes disposed in the fifth area; and one or more second terminals configured to couple the one or more fifth through electrodes to the one or more second through electrodes in series along the fourth direction.
 14. An apparatus including: an interposer comprising one or more power lines configured to supply a power supply voltage; at least one core chip extending on a first plane defined by a first direction and a second direction that is perpendicular to the first direction, the at least one core chip comprising: a first substrate; a first memory cell array on the first substrate; one or more first through electrodes aligned to the first memory cell array along the first direction; and one or more second through electrodes aligned to the first memory cell array along a third direction opposite to the first direction; an interface chip having the at least one core chip stacked thereon in a fourth direction perpendicular to the first direction and the second direction, the interface chip comprising: a second substrate; one or more third through electrodes corresponding to the one or more first through electrodes; one or more first terminals configured to couple the one or more third through electrodes to the one or more first through electrodes in series along the fourth direction; one or more fourth through electrodes corresponding to the one or more second through electrodes; and one or more second terminals configured to couple the one or more fourth through electrodes to the one or more second through electrodes in series along the fourth direction; and one or more first interconnects configured to couple the one or more power lines to the one or more third through electrodes and the one or more fourth through electrodes.
 15. The apparatus of claim 14, further comprising: one or more circuits on the first substrate; one or more first voltage generators configured to supply a first voltage to the one or more circuits, wherein the one or more first voltage generators are disposed adjacent to the one or more first through electrodes.
 16. The apparatus of claim 15, further comprising: one or more first sense amplifiers coupled to the first memory cell array; and one or more second voltage generators disposed adjacent to the one or more second through electrodes and configured to supply a second voltage to the one or more sense amplifiers.
 17. The apparatus of claim 14, further comprising: a second memory cell array aligned to the first memory cell array and the one or more first through electrodes along the first direction; and one or more fifth through electrodes aligned to the second memory cell array along the first direction.
 18. The apparatus of claim 17, wherein the one or more second through electrodes and the one or more fifth through electrodes are symmetrically spaced with respect to the one or more first through electrodes.
 19. The apparatus of claim 14, further comprising: a controller chip comprising a processor and a memory controller; and one or more second interconnects configured to couple the interface chip and the interposer, wherein the interposer further comprises: a plurality of channels configured to interconnect the one or more second interconnects and the controller chip. 